Building my regenerative professional palette

I don’t really have a professional palette for regenerative design like I do for structural design. Or at least I don’t think I do. But what I realise is that whereas in structural design I often talk about material and form, in regenerative design, we are interested in systems. The elements of the palette therefore are not shapes and materials but system characteristics and functionality. 

I spent most yesterday thinking about how I was going to follow on from this sequence of posts about professional palettes — how I was going to describe a regenerative palette. 

Then, this morning, fresh brained, I looked at the tiny courgette plant on my garden table and started thinking about it from a functional perspective. As a series of processes and relationships. The result was yesterday’s post about the Compound-Aggregating Regenerative Food Production Device

Now, having written that piece, I can distill some underlying questions that enabled me to write it. Questions for investigating systems in the living world, that help us distill how they work and think about how we work with and design systems. Questions like:

  • Why is it the shape it is?
  • How does the system scale?
  • How is information transmitted?
  • How does the system grow from simple elements to complex functions?
  • Where do the resources come from and go to?
  • What happens at the beginning and what happens when the system is no longer needed?
  • What roles do humans play in these living systems?

These questions help us discover the paints for the regenerative palette. 

Compound aggregating regenerative food extrusion device — for 25 pence.

The device comes in a tiny package, no more than 1cm long and less than that wide — a hundredth of its final size. No buttons. No charging ports. No Bluetooth connections. It can wait on standby for months or even years, waiting patiently to be activated.

Activation is simple. You dig a borehole with your little finger in some humus medium, place the package at the bottom, backfill, and irrigate. 

Nothing seems to happen for about a week, the start-up sequences has begun, powered by an internal chemical battery. The first job is put up a tiny solar panel that can fuel the next stage in development. 

Above ground, you see the pilot solar panels pop up, a tiny pair of wings that capture radiation from the sun, and use it to convert an ambient gas and the liquid irrigation into a powerful internal fuel. 

This process fuels the next stage. Below ground the device constructs a network of feelers that seek out more moisture and also trace compounds needed to build its more substantial substructure and superstructure along with its food-generating apparatus. 

With its supply chain capacity upgraded, it sends up two more substantial solar panels — these ones a hundred times the size of the first. The device is now really increasing its chemical energy generating capacity and this flow of energy, combined with its increased underground compound aggregating ability enables the device to build its edible output module.

The code for food generation is preloaded into the device’s ROM. However not every device is the same and some have different sets of code. Not being connected to the internet, it has developed an ingenious method for peer-to-peer firmware exchange.

The device produces colourful landing and refuelling stations which attract tiny drones, which circulate from device to device, trading code for fuel. This symbiotic relationship enables tiny the device to assimilate tiny snippets of code and test alternative combinations. 

The code received, the device closes the landing pad and devotes its compound-aggregating overground underground regenerative capacity to producing edible extrusions. Not only do these long, green, cylinders make tasty food for us humans, they also contain dozens more devices that can be used to start the process again. 

Forward-thinking consumers will eat 90% of the crop of tasty tube extrusions, remembering to hold back 10% or so to harvest new devices for the year ahead. 

The production phase ended, the entire system is dismantled by even smaller devices — too small to see and fully understand — and the component compounds are returned to the site that they were drawn from ready for another production cycle. 

For someone starting from scratch these devices come in packets of 10 for £2.50 — an astonishing 25p each. But once you have started, you will have a constant supply of new devices.

You can find these packets in most supermarkets. Just look in the seed section for Compound-aggregating Overground Underground ReGenerative Edible Tasty Tube Extrusion Systems, often more easily referred to by their acronym: C.O.U.R.G.E.T.T.E.S